Google Maps Satellite Version

[Libano Parkes]

Becausethe original poster is the only one that can mark a reply as helping or solving their question. So, at the time of the reply, the OP determined it answered their question. Additionally, posting here does not get information to Apple. This is a user to user support forum and Apple does not participate here for information. The way they get information from users is with the feedback link. If you wish for Apple to see your comments/complaints/suggestions about their products, use the feedback link here, Product Feedback - Apple and you can report mapping issues directly from the Maps app.

iOS15 shows an older version of satellite pictures. Comparing to Google maps or Apple Maps on older devices with previous iOS versions shows are current version of satellite maps. Glitch needed to be fixed?

We have a Foreman/Katello server with foreman-proxy-1.12.4-1.el7.noarch and katello-service-3.1.0-5.el7.noarch installed. Can someone tell me which version of Red Hat Satellite 6.x does this map to? I believe the Foreman we are running maps to Satellite 6.2, but I wanted to get a clarification regarding this form the group. Thanks!

If you use Studio, Mapbox GL JS, or the Mapbox Mobile SDKs, you are already using the Styles API. This documentation is useful for software developers who want to programmatically read and write these resources. It isn't necessary for you to read or understand this reference to design or use Mapbox maps.

You will need to be familiar with the Mapbox Style Specification to use the Styles API. The Mapbox Style Specification defines the structure of map styles and is the open standard that helps Studio communicate with APIs and produce maps that are compatible with Mapbox libraries.

To use Mapbox Standard, you need to use GL JS v3 or newer on the web and on mobile Mobile Maps SDKs v11 or newer. Unless another style URL is specified, Mapbox Standard is the default map for these SDK versions.

The underlying paradigm to the Standard style is different from other Mapbox styles. Layers in Standard are not modifiable asides from the predefined configuration options. Mapbox manages the basemap experience and only surfaces key global styling configurations - in return, you get a carefully designed, cohesive visual experience and an evergreen map, always featuring the latest data, styling and rendering features compatible with your SDK.

The Global Satellite Mapping for Precipitation (GSMaP) produces high-resolution and high-frequent global rainfall map based on multi-satellite passive microwave radiometer observations with information from the Geostationary InfraRed (IR) instruments (Kubota et al. 2020). Output product of GSMaP algorithm is 0.1-degree grid for horizontal resolution and 1-hour for temporal resolution. The GSMaP near-real-time version product (GSMaP_NRT) has been in operation at JAXA since November 2007 in near-real-time basis, and browse images and binary data available at JAXA GSMaP web site ( ).

A new version of the GSMaP product was released in December 2021. We plan the reprocessing of the GSMaP standard version in a period during the past 24 years since Jan. 1998. The GSMaP algorithms consist of passive microwave (PMW) algorithms, a normalization module for PMW retrievals, a PMW-IR Combined algorithm, and a Gauge-adjustment algorithm. Features in the new version are summarized as follows. In the PMW algorithm, retrievals extended to the pole-to-pole. Databases used in the algorithm were updated. A method using frozen precipitation depths was newly installed (Aonashi et al. 2021). Heavy orographic rainfall retrievals were improved upon a basic idea of Shige and Kummerow (2016). The normalization module for PMW retrievals (Yamamoto and Kubota 2020) were newly implemented to make more homogeneous PMW retrievals, in particular, for microwave sounders. A basic idea of the PMW-IR combined algorithm is using morphing and Kalman filter (Ushio et al. 2009). In addition, a histogram matching method by Hirose et al. (2022) was implemented in the new version to reduce the IR retrievals with reference to the PMW retrievals. In the gauge-adjustment algorithm, a precipitation estimate is adjusted using the NOAA CPC Global Unified Gauge-Based Analysis of Daily Precipitation (Mega et al. 2019). Artificial patterns appeared in past versions were mitigated in the new version. Preliminary validation results using the gauge-adjustment ground radar data over the Japan land areas confirmed better results in the new version of the satellite only products.

Furthermore, the GSMaP real-time version (GSMaP_NOW) with the new algorithm was also released in December 2021.The GSMaP algorithm for the new version was also applied to the GSMaP_NOW system after 6th December 2021. Accuracy improvements were confirmed also in the GSMaP_NOW products by validations with the gauge-adjustment ground radar data over Japan.

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I have a very strange problem. I have Netgear Orbi RBD850 and one connected satellite RBS850 (over WiFi). Software version is: 3.2.16.22. Everything is working just fine except that on the network map I can see another connected satellite that looks like Netgear Orbi but not the same model that I have. It shows that it is connected to my satllite with the LAN cable. But I do not have that satellite at all.

When I go to settings and look at the connected devices, I cannot see this ghost satellite. It appears only on the network map on the Netgear App on my Tablet. By the way, the performance of the network is very good.

When I click on that ghost it tells me: No Connected Device found. When I look into details of this ghost I do not get any reasonable information except that Hardware version is: XEROX Corporation !? But it is shown on the map .... ?!

I updated the FW to the latest and the issue is still there. But there is a slightly different behaviour. This time this ghost sattelite has a name of one of the iPads that we are using at home. Everything else remains unchainged.

I have the same problem (Orbi RBK853; router with two satellites, firmware v3.2.18.1; app version 2.10.5.17). There has recently been an app update (July 1), but the bug is still there. Yesterday suddenly an extra satellite appeared in my Orbi app network map, of an older model. The satellite has the same serial number as my RBR850 router. Manufacturer Xerox, no IP-address, no MAC-address etc. Netgear: I hope this can be fixed without having to reset to factory settings. Thanks.

A while back, my android map app stopped getting Google Satellite tiles. Now that it's moved up to being the most important issue, I've traced the code and found that it creates requests like this one:

Following the link showed it was broken. The guy who wrote the code was the only one to work on the app before me, left before I was employed, and documented nothing. I have no idea what this link is supposed to do, as I can't find it in the Google Map Api, even the deprecated versions. Does anyone have any idea what this link used to connect to, why it no longer works, and how to go about fixing it?

I'm guessing the v parameter is a version number. The higher the version number, the more recent the satellite images. The highest valid version number as I'm typing this is 104. Google is only going to keep so many versions of these tiles.

The x and y parameters are the x and y location of the tile on the earth. 0, 0 starts at approximately 80 degrees of latitude north, at the international date line west. x increments to the east, and y increments to the south in a Mercator projection.

I've discovered the answer on my own. The v parameter is, I guess, a version number or something. I increased it to 90 and it worked again. I still can't find documentation on this thing, though, so I'm concerned that the app will have to be manually updated and recompiled whenever that number changes.

With this new capability, anyone living in hurricane-prone coastal areas along the U.S. East and Gulf Coasts and Puerto Rico can evaluate their own unique risk to the storm surge hazard. These maps make it clear that storm surge is not just a beachfront problem, with the risk of storm surge extending many miles from the immediate coastline in some areas. "Simply look at the interactive maps to find out if you are in an area at risk for storm surge from a hurricane", said BrianZachry, Ph.D., NHC Storm Surge Specialist.

What should individuals do if they discover that they live in an area vulnerable to storm surge? "If you discover you are vulnerable to storm surge, find out if you live in a hurricane storm surge evacuation zone, then decide today where you will go and how you will get there, if and when you're instructed by emergency managers to evacuate", said Dr. Rick Knabb, Director of NOAA's National Hurricane Center.

The NHC provides two products based on hypothetical hurricanes: MEOWs and MOMs. MEOWs are created by computing the maximum storm surge resulting from up to 100,000 hypothetical storms simulated through each SLOSH grid of varying forward speed, radius of maximum wind, intensity (Categories 1-5), landfall location, tide level, and storm direction. A MEOW product is created for each combination of category, forward speed, storm direction, and tide level. SLOSH products exclude Category 5 storms north of the NC/VA border and for Hawaii. For each storm combination, parallel storms make landfall in 5 to 10 mile increments along the coast within the SLOSH grid, and the maximum storm surge footprint from each simulation is composited, retaining the maximum height of storm surge in a given basin grid cell. These are called MEOWs and no single hurricane will produce the regional flooding depicted in the MEOWs. SLOSH modelMOMs are an ensemble product of maximum storm surge heights. SLOSH MOMs are created for each storm category by retaining the maximum storm surge value in each grid cell for all the MEOWs, regardless of the forward speed, storm trajectory, or landfall location. SLOSH MOMs are available for mean tide and high tide scenarios and represent the near worst-case scenario of flooding under ideal storm conditions. A high tide initial water level was used for the storm surge risk maps.

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